• Solar Energy Systems Ulverston PV Junction Box PV-1302 Split Design for Shortened Wiring - TUV, UL, ISO9001 Certified System 1
  • Solar Energy Systems Ulverston PV Junction Box PV-1302 Split Design for Shortened Wiring - TUV, UL, ISO9001 Certified System 2
  • Solar Energy Systems Ulverston PV Junction Box PV-1302 Split Design for Shortened Wiring - TUV, UL, ISO9001 Certified System 3
  • Solar Energy Systems Ulverston PV Junction Box PV-1302 Split Design for Shortened Wiring - TUV, UL, ISO9001 Certified System 4
Solar Energy Systems Ulverston PV Junction Box PV-1302 Split Design for Shortened Wiring - TUV, UL, ISO9001 Certified

Solar Energy Systems Ulverston PV Junction Box PV-1302 Split Design for Shortened Wiring - TUV, UL, ISO9001 Certified

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Loading Port:
Guangzhou
Payment Terms:
TT OR LC
Min Order Qty:
3000 pc
Supply Capability:
3000000 pc/month

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Feature

a. split design, shortening wiring  

b.use glue, excellent heat output  

c. way of outlet, down and side optional    

d.suitable for application of BIPV   

 

 Product description    

1. All the connection made by double fixed connection low power loss

2. With the capacity of anti-aging and resistance to ultraviolet radiation on the outer cover with excellent box design with good thermal dissipation

3. Demonstrating safe, realiable and excellent lasting functionality, applicable in harsh outdoors working ambient

4. Big variety for choices,1 rail ,2 rail,3 rail,4 rail,5 rail,6 rail.mini junction box and solar junction box for solar street light

PV Juction Box >> PV-1302  Split Design, Shortening Wiring  TUV、UL 、 ISO9001 Certification

 

Item

  Data

  Terminals for Ribbons

   2

  Rated  Current

  12A/15A

  Rated  Voltage

  1000V/1500V

  Dimension

  67.4*51*15.5mm

  Temperature

  -40℃~+85℃

  Size of  Cables

  4 mm2/12AWG

  Size of Ribbons

 W(6±2mm)*T(0.3±0.15mm)

  Protection  Degree

    IP67

  Flammability  Class

    V-0

FAQ

1.   How long will my inquiry get response?

 Your inquiry related to our products or prices will be replied within 24 hours.  

 2.  Can I get professional service and suggestion?

Well-trained and experienced staffs to answer all your questions in fluent English.  

 3.  Do you accept OEM or customized design?

OEM & ODM, any your customized lightings we can help you to design and put into product.

 4.  What if I need specific design?

Distributorship are offered for your unique design and some our current models.

 

Q: Can solar energy systems be used for powering research laboratories or scientific facilities?
Yes, solar energy systems can definitely be used for powering research laboratories or scientific facilities. In fact, solar energy is becoming increasingly popular in the scientific community due to its numerous benefits. Firstly, solar energy systems are highly reliable and require minimal maintenance. Once installed, they can provide a consistent and uninterrupted power supply to research laboratories or scientific facilities, ensuring that critical operations are not disrupted. This is particularly important for facilities that require continuous power, such as those conducting experiments or running sensitive equipment. Secondly, solar energy is a clean and renewable source of power. By utilizing solar energy systems, research laboratories and scientific facilities can significantly reduce their carbon footprint and contribute to the global effort of combating climate change. This aligns with the scientific community's commitment to sustainability and environmental responsibility. Furthermore, solar energy systems can also help reduce energy costs for research laboratories and scientific facilities. While the initial investment in installing solar panels may be higher, the long-term savings on electricity bills can be substantial. This frees up resources that can be directed towards other important research activities or equipment upgrades. It is also worth mentioning that advancements in solar technology have made it increasingly efficient and capable of generating power even in less sunny areas. This means that research laboratories and scientific facilities located in regions with varying weather conditions can still benefit from solar energy systems. In conclusion, solar energy systems are a viable and advantageous option for powering research laboratories or scientific facilities. They provide reliable, clean, and cost-effective energy, aligning with the sustainability goals of the scientific community. As solar technology continues to improve, it is expected that the use of solar energy in research facilities will become even more widespread.
Q: What is the difference between a solar tracker and a fixed-tilt solar energy system?
A solar tracker is a system that follows the movement of the sun throughout the day, adjusting the position of solar panels to maximize sunlight exposure. On the other hand, a fixed-tilt solar energy system consists of solar panels that are mounted at a fixed angle, typically facing south, and do not move throughout the day. The main difference lies in their ability to track the sun's movement, resulting in increased energy production for solar trackers compared to fixed-tilt systems.
Q: Can solar energy systems generate power during cloudy days?
Yes, solar energy systems can still generate power during cloudy days, although their efficiency may be reduced compared to sunny days. Solar panels can still capture and convert sunlight into electricity even when it's cloudy, albeit at a lower rate. Advances in technology have made solar panels more efficient in low light conditions, allowing them to generate some power even on overcast days. However, the overall output of solar energy systems can significantly vary depending on the density of clouds and the type of solar panels used.
Q: How can I calculate the size of a solar energy system for my home?
To calculate the size of a solar energy system for your home, you need to consider a few factors. First, determine your average monthly electricity usage in kilowatt-hours (kWh). You can find this information on your utility bills or by contacting your electricity provider. Next, consider your location and the amount of sunlight your area receives. The National Renewable Energy Laboratory (NREL) has a helpful online tool called PVWatts that can estimate the solar energy potential in your area. Additionally, take into account the available roof space or land area where you can install solar panels. Finally, consult with a solar installer or use online calculators that consider these factors to determine the appropriate system size for your home. Keep in mind that it's advisable to consult with professionals for accurate and tailored calculations to meet your specific energy needs.
Q: Can solar energy systems be used for powering off-grid agricultural processing facilities?
Yes, solar energy systems can be used to power off-grid agricultural processing facilities. Solar panels can generate electricity from sunlight, which can be used to operate various machinery and equipment required for processing agricultural products. This renewable energy source is cost-effective, environmentally friendly, and can provide a reliable power supply in remote areas without access to the traditional power grid.
Q: Can solar energy systems be installed in urban areas with limited space?
Solar energy systems can indeed be installed in urban areas with limited space. Despite the fact that urban areas often have limited rooftop space for solar panel installation, there are several creative solutions that can be used to overcome this challenge. One option is to install solar panels on vertical surfaces like walls or building facades. This approach makes the most of the available space and doesn't require additional land. By utilizing vertical space, solar energy systems can still generate a significant amount of electricity even in densely populated urban areas. Another solution is to implement community solar projects. These projects involve installing solar panels in a centralized location within the urban area, such as a parking lot or vacant lot. The electricity generated by these panels can then be shared among multiple buildings or households, allowing those with limited rooftop space to still benefit from solar energy. Furthermore, advancements in technology have resulted in the development of more efficient and compact solar panels. These panels can generate the same amount of electricity as traditional panels with less surface area, making them more suitable for installation in limited urban spaces. In addition to these solutions, it's important to consider the potential of integrating solar energy systems into existing infrastructure. For instance, solar panels can be installed on top of bus stops, streetlights, or even on the sides of bridges and highways. This allows for the utilization of spaces that would otherwise go unused. In conclusion, although limited space can be a challenge, there are various ways to install solar energy systems in urban areas. With innovative approaches and technological advancements, solar power can be harnessed even in densely populated cities, contributing to a more sustainable and renewable energy future.
Q: Can solar energy systems be used for drying agricultural produce?
Yes, solar energy systems can indeed be used for drying agricultural produce. Solar dryers, such as solar air dryers or solar dehydrators, utilize the energy from the sun to dry agricultural products efficiently and naturally. These systems typically involve capturing sunlight using solar panels or collectors, which then heat up the air inside the dryer. This heated air is circulated over the produce, facilitating the drying process. Solar drying is a sustainable and efficient method that can preserve the quality of agricultural produce while reducing reliance on fossil fuels.
Q: What are the main components of a solar energy system?
The main components of a solar energy system include solar panels, an inverter, a charge controller (for battery storage systems), batteries (for off-grid systems), and a meter (to measure electricity production and consumption). Additionally, a solar energy system may also have mounting hardware, wiring, and a monitoring system.
Q: What is the impact of solar energy systems on wildlife?
Solar energy systems have a relatively low impact on wildlife compared to other forms of energy generation. While it is true that some wildlife may be affected by the installation and operation of solar energy systems, the overall impact is minimal and can be mitigated with proper planning and design. One potential impact of solar energy systems on wildlife is the loss of habitat during the construction phase. However, this can be minimized by siting solar installations in areas that have already been disturbed or by retrofitting existing structures such as rooftops and parking lots. Additionally, proper environmental assessments and mitigation measures can be implemented to protect sensitive habitats and species. Another concern is the potential for solar panels to create artificial perching or nesting sites for birds and other animals, which can lead to collisions or displacement of wildlife. However, this risk can be reduced by incorporating bird-safe design features such as textured or reflective surfaces, and by implementing proper monitoring and maintenance practices. Furthermore, solar energy systems have the advantage of being a clean and renewable energy source, reducing the need for fossil fuel-based power generation. This translates into significant benefits for wildlife by reducing air and water pollution, and mitigating climate change impacts that can have far-reaching consequences on ecosystems and species. In conclusion, while solar energy systems do have some impact on wildlife, the overall effect is relatively low when compared to other forms of energy generation. With proper planning, design, and mitigation measures, the negative impacts can be minimized, allowing solar energy to play a crucial role in the transition towards a sustainable and environmentally friendly energy future.
Q: What is the role of microinverters in solar energy systems?
Microinverters play a crucial role in solar energy systems as they convert the direct current (DC) generated by individual solar panels into alternating current (AC) that is usable for homes and businesses. Unlike traditional string inverters, microinverters are installed on each solar panel, allowing for better system performance, increased energy production, and improved reliability as they mitigate the impact of shading or panel malfunctions. Additionally, microinverters enable real-time monitoring and optimize energy harvesting, making solar systems more efficient and cost-effective.

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